ballot to establish sequence vh to vg equivalency for api...
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To: API Lubricants Group Cc: Lubricants Group Mailing List
API Ballot to Establish Sequence VH to VG Equivalency for API SM At the September 12, 2018 Lubricants Standards Group (LSG) Meeting the Category Life Oversight Group (CLOG) gave an update Sequence VH to Sequence VG Limits for API SM. After review and discussion, there was a Motion to ballot proposed limits for Sequence VH equivalency to Sequence VG in API SM.
Attachment 1, pages 7-13, is a copy of the CLOG Presentation on Seq. VH to Seq. VG Equivalency for API SM. The Motion to Ballot is on Page 14. After review and discussion, the LSG agreed by voice vote to Ballot Seq. VH to Seq. VG Equivalency for API SM with the following limits.
Proposal API AES RAC AEV50 APV50 OSC Hot
Stuck Rings
Sequence VH Limits SM 7.4 min 7.4
min 8.6 min 7.6 min. R&R None
Attachment 2 illustrates the Table G-4—Requirements for API Service Category SM with the Sequence VH Test Limits included. LSG Members and Interested Parties are asked to review Table G-4 with Sequence VH Limits and Vote or Comment on accepting it into API 1509. Lubricants Group Members should use the API eBallot System to cast their vote and make comments. The eBallot Link is: http://Ballots.api.org. The Lubricants Group Member votes will be counted, and all received comments reviewed and considered before the ballot results are final. Non-Lubricants Group Members should comment on the Ballot Motion using the eBallot system. The eBallot Link is: http://Ballots.api.org. All comments on the Ballot Motion will be reviewed before the ballot results are final. This eBallot will close on November 5, 2018. All Votes and/or Comments must be received by the close date.
Attachment 1
CLOG Update to PCEOCPDearborn, MI2018.09.12
What is at risk• The following categories may be in jeopardy if alternative tests and
equivalent limits cannot be established
API HD Categories API PC Categories ILSAC Categories
CH-4 SJ GF-5
CI-4 SL
CJ-4 SM
SN
Resource Conserving
Current Status✤ Sequence IIIF deposits & Vis Increase
✤ Proposed S category limits rejected✤ 4 Test 70HR IIIH matrix to be run
✤ Testing started at 1 lab✤ MOA being finalized with 2nd lab
✤ Proposed C category limits endorsed by HDEOCP✤ ASTM had issues with original ballot ✤ New ballot closes 2018.09.20
API 60 PVIS, max
80 PVIS, max
WPD, min
PSV, min
IIIF Limits
SJ 325 - 3.2 8.5SL - 275 4.0 9.0
CH-4 295 - - -CI-4 - 275 - -CJ-4 - 275 - -
Proposal API 60 PVIS, max
70 PVIS, max
WPD, min
PSV, min
IIIH Limits
SJ 120 - ? ?SL - 370 ? ?
CH-4 110 - - -CI-4 - 370 - -CJ-4 - 370 - -
Current Status✤ Sequence IIIG deposits & Vis Increase
✤ IIIH Limits for API SN/ILSAC GF-5 and SM approved by LG
Approved API ILSAC EOT PVIS WPD Hot Ring Stick
IIIHLimits
API SN GF-5 150 Max 3.7 Min None
API SM - 150 Max 3.2 Min None
API ILSAC EOT PVIS WPD Hot Ring Stick
IIIGLimits
API SN GF-5 150 Max 4.0 Min None
API SM - 150 Max 3.5 Min None
Current Status✤ Sequence IIIGA used oil MRV
✤ API LG agreed that the ROBO could be used as a substitute test
✤ Sequence IIIGB Phosphorus Retention✤ API LG approved use of the IIIHB at recommended limit
Approved API ILSAC % P Retention
IIIHBLimits API SN GF-5 81% Min
API ILSAC % P Retention
IIIGBLimits API SN GF-5 79% Min
Current Status✤ Sequence IIIF, IIIG and VE wear
✤ It was determined that these parameters could be waived based upon a minimum P requirement of 0.06% and a Sequence IVA or IVB requirement.
✤ Sequence IVA Cam wear✤ Life expectancy of IVA: 2022✤ IVB equivalency: Stats group has not yet provided an analysis of IVA /IVB equivalency. In light of
the IVA life expectancy and apparent differences between the two tests, CLOG will re-affirm whether or not equivalency is needed.
API ILSAC Average Cam Wear
Sequence IVA Limits
SN GF-5 90µ maxAPI SM - 90µ maxAPI SL - 120µ maxAPI SJ - 120µ max
API ILSAC Average Cam Wear
Sequence IVB Limits
API SN GF-5 TBDAPI SM - TBDAPI SL - TBDAPI SJ - TBD
Sequence VG Limits✤ Sequence VG Sludge and Varnish
✤ API Approved Sequence VH limits for API SN✤ The proposed Sequence VH limits for SL,SM and SJ were developed based on maintaining the
same deltas with the API SN limits currently in place for the Sequence VG
API ILSAC AES RAC AEV APV OSC Hot Stuck Rings
Sequence VG Limits
SN GF-5 8.0 min 8.3 min 8.9 min 7.5 min 15% max None
SL, SM & SJ - 7.8 min 8.0 min 8.9 min 7.5 min 20% max None
Sequence VH Limits API ILSAC AES RAC AEV APV OSC Hot Stuck Rings
Approved SN GF-5 7.6 min 7.7 min 8.6 min 7.6 min R&R None
Proposed SL, SM & SJ - 7.4 min 7.4 min 8.6 min 7.6 min R&R None
Motion
✤ Motion to ballot proposed limits for Sequence VH equivalency to Sequence VG in API SM
Proposal API AES RAC AEV50 APV50 OSC Hot Stuck Rings
Sequence VH Limits SM 7.4 min 7.4 min 8.6 min 7.6 min. R&R None
✤ Motion by: Brent Calcut✤ Second by: Matthew Ansari✤ Voice Vote: 17 = Yes 0 =No 0 =Abstain
Motion
✤ Motion to ballot proposed limits for Sequence VH equivalency to Sequence VG in API SJ and SL
Proposal API AES RAC AEV50 APV50 OSC Hot Stuck Rings
Sequence VH Limits SJ, SL 7.4 min 7.4 min 8.6 min 7.4 min. R&R None
✤ Motion by: Brent Calcut✤ Second by: Matthew Ansari✤ Voice Vote: 17 = Yes 0 =No 0 =Abstain
Current Status✤ Sequence VID Fuel Economy - HTHS ≥ 2.6 cP
✤ API LG approved equivalency proposal✤ VID Life Expectancy: Ended✤ VIE Equivalency: Approved
XW-20 XW-30 10W-30 and others
Sequence VD Limits
API ILSAC FEI 2 FEI Sum FEI 2 FEI Sum FEI 2 FEI Sum
SN/ RC GF-5 1.2 min 2.6 min 0.9 min 1.9 min 0.6 min 1.5 min
Approved Limits XW-20 XW-30 10W-30 and others
Sequence VIE Limits
API ILSAC FEI 2 FEI Sum FEI 2 FEI Sum FEI 2 FEI Sum
SN/ RC GF-5 1.5 min 3.2 min 1.2 min 2.5 min 1.0 min 2.2 min
Current Status✤ Sequence VID Fuel Economy - HTHS ≥ 2.3 cP
✤ Sequence VIF equivalent limits approved by LG✤ VID Life Expectancy: Ended✤ VIF Equivalency: October 2017
XW-16
Sequence VID Limits
API FEI 2 FEI Sum
SN/ RC 1.3 min 2.8 min
Approved XW-16
Sequence VIF Limits
API FEI 2 FEI Sum
SN/ RC 1.8 min 3.7 min
Current Status✤ Engine Oil Aeration Test
✤ Proposal based solely on oil 1005 made✤ Request has gone out for data on other oils✤ Surveillance Panel will develop equivalency proposal once issues with the COAT resolved✤ EOAT Life Expectancy: Q4 2018✤ COAT Equivalency: ????
API % Aeration
EOAT Limits
CJ-4 8.0 max
CI-4 8.0 max
CH-4 8.0 max
API % Aeration
COAT Limits
CJ-4 TBD
CI-4 TBD
CH-4 TBD
Summary of StatusCurrent Test Replacement
Test Status Remaining CLOG Activity Estimated Timing
IIIF for HD IIIH ASTM re-balloting proposed limits None Closes 2018.09.20
IIIF for LD IIIH API to conduct shortened IIIH tests
Will propose limits when shortened IIIH testing completed October -November
IIIG IIIH Completed None Done
IIIGA ROBO Completed None Done
IIIGB IIIHB Completed None Done
IVA IVB Test recently approved To review need for equivalency ????
VG VH SN limits approved, SJ, SL & SM limits proposed to API None October 2018 ?
VID VIE Completed None Done
VID (XW-16) VIF Completed None Done
EOAT COAT Awaiting SP recomendation Equivalency proposal ????
Attachment 2 Table G-4—Requirements for API Service Category SM
Engine Test Requirementsa
Viscosity Grade Performance Requirements
SAE 0W-20, SAE 5W-20, SAE 0W-30, SAE 5W-30,
SAE 10W-30 All Othersb
ASTM D7320 (Sequence IIIG) Kinematic viscosity increase @ 40°C, % Average weighted piston deposits, merits Hot stuck rings Average cam plus lifter wear, μm
150 (max) 3.5 (min) None 60 (max)
150 (max) 3.5 (min) None 60 (max)
Or ASTM D8111 (Sequence IIIH)
Kinematic viscosity increase @ 40°C, % Average weighted piston deposits, merits Hot stuck rings
150 (max) 3.2 (min) None
150 (max) 3.2 (min) None
Aged oil low-temperature viscosity
ASTM D4684, (Sequence IIIGA), Low Temperature Viscosity using the “aged oil” from the Sequence IIIGA test
ASTM D4684 viscosity must meet requirement of original
or next higher
NR
Or
ASTM D7528, (ROBO Test), aged oil low-temperature viscosity
ASTM D4684 viscosity must meet requirement of original
or next higher
NR
ASTM D6891 (Sequence IVA) Average cam wear (7 position avg), μm
90 (max)
90 (max)
ASTM D6593 (Sequence VG)c Average engine sludge, merits Average rocker cover sludge, merits Average engine varnish, merits Average piston skirt varnish, merits Oil screen clogging, % area Hot-stuck compression rings Cold stuck rings Oil ring clogging, % area Follower pin wear, cyl #8, avg Ring Gap Increase, cyl #1 & #8, avg Oil screen debris, % area
7.8 (min) 8.0 (min) 8.9 (min) 7.5 (min) 20 (max) None Rate & report Rate & report Rate & report Rate & report Rate & report
8.0 (min) 8.3 (min) 8.9 (min) 7.5 (min) 20 (max) None Rate & report Rate & report Rate & report Rate & report Rate & report
ASTM Dxxxx (Sequence VH) Average engine sludge, merits Average rocker cover sludge, merits Average engine varnish, merits Average piston skirt varnish, merits Oil screen clogging, % area Hot-stuck compression rings
7.4 (min) 7.4 (min) 8.6 (min) 7.6 (min) Rate & report None
7.4 (min) 7.4 (min) 8.6 (min) 7.6 (min) Rate & report None
ASTM D6709 (Sequence VIII) Bearing weight loss, mg
10 hr. stripped viscosity, cSt
26 (max) Stay in grade
26 (max) Stay in grade
Bench Test and Measured Parametera Viscosity Grade Performance Requirements
Attachment 2 SAE 0W-20, SAE 5W-20, SAE 0W-30, SAE 5W-30,
SAE 10W-30
All Othersb
ASTM D6557 (Ball Rust Test), avg. gray value, minc 100 100 ASTM D5800, evaporation loss, 1 hour at 250°C, % maxd
15
15
ASTM D6417, simulated distillation at 371°C, % max 10 10
ASTM D6795, EOFT, % flow reduction, max 50 50
ASTM D6794, EOWTT, % flow reduction, max
with 0.6% H2O 50 50
with 1.0% H2O 50 50
with 2.0% H2O 50 50
with 3.0% H2O 50 50
ASTM D4951, phosphorus % mass, maxe 0.08f NR
ASTM D4951, phosphorus % mass, mine 0.06f 0.06f
ASTM D4951, or D2622, sulfur % mass, maxe
SAE 0W-20, 0W-30, 5W-20, and 5W-30 0.5f NR
SAE 10W-30 0.7f NR
ASTM D892 (Option A), foaming tendency
Sequence I, mL, max, tendency/stabilityg 10/0 10/0
Sequence II, mL, max, tendency/stabilityg 50/0 50/0
Sequence III, mL, max, tendency/stabilityg 10/0 10/0 ASTM D6082 (Option A), high-temperature foaming mL, max, tendency/stabilityh
100/0
100/0
ASTM D6922, homogeneity and miscibility i i
ASTM D6709, (Sequence VIII) shear stability j j ASTM D7097, TEOST MHT, high temperature deposits, deposit wt, mg, maxe
35
45
ASTM D5133, gelation index, maxc 12k NR
ASTM D4683, D4741, or D5481, High Temp./High Shear Viscosity @ 150°C, mPa∙s, min NR 2.6
Note: All oils must meet the requirements of the most recent edition of SAE J300; NR = Not required. aTests are per ASTM requirements. bDoes not include SAE 0W-16 and 5W-16. cIf CI-4, CJ-4, CK-4 and/or FA-4 categories precede the “S” category and there is no API Certification Mark, the Sequence VG (ASTM D6593), Ball Rust (ASTM D6557), and Gelation Index (ASTM D5133) tests are not required. dCalculated conversions specified in ASTM D5800 are allowed. eFor all viscosity grades: If CH-4, CI-4 and/or CJ-4 categories precede the "S" category and there is no API Certification Mark, the “S” category limits for phosphorus, sulfur, and the TEOST MHT do not apply. However, the CJ-4 limits for phosphorus and sulfur do apply for CJ-4 oils. This footnote cannot be applied if CK-4 or FA-4 is also claimed. Note that these “C” category oils have been formulated primarily for diesel engines and may not provide all of the performance requirements consistent with vehicle manufacturers' recommendations for gasoline-fueled engines. fThis is a non-critical specification as described in ASTM D3244.
Attachment 2 gAfter 10-minute settling period. hAfter 1-minute settling period. iShall remain homogenous and, when mixed with ASTM reference oils, shall remain miscible. jTen-hour stripped kinematic viscosity must remain in original SAE viscosity grade except XW-20 which must remain ≥5.6 mm²/s. kTo be evaluated from –5˚C to temperature at which 40,000 cP is attained or –40˚C, or 2 Celsius degrees below the appropriate MRV TP-1 temperature (defined by SAE J300), whichever occurs first.